electron

As nouns the difference between electron and microgeon

is that electron is while microgeon is (physics) a very small geon that serves as a model for the electron.

As a noun electron

is .

As an adjective electrofugal is

(chemistry) describing the effects of an atom or group in a molecule on the movement of electrons in neighbouring bonds.

As a noun electron

is .

As an adjective nephelauxetic is

(physics|inorganic chemistry) describing the expansion effect of ligands on the electron orbitals of transition metals.

As nouns the difference between electron and electrosphere

is that electron is while electrosphere is (astronomy) the region around a star containing many free electrons.

As nouns the difference between electron and microbunch

is that electron is while microbunch is (physics) a short cluster of photons (or electrons) produced by a laser etc.

As nouns the difference between electron and comptonization

is that electron is while comptonization is (physics) the result of the compton effect; particularly, the redistribution of the energies of photons scattered by electrons in space.

As nouns the difference between electron and repumping

is that electron is while repumping is (physics) the use of a laser to raise an electron (in an atom or ion etc) back to a previous high state.

As a verb repumping is

.

As nouns the difference between electron and parapositronium

is that electron is while parapositronium is (physics) used attributively to describe the state of a positronium exotic atom in which the positron and electron have antiparallel spins.

As nouns the difference between electron and orthopositronium

is that electron is while orthopositronium is (physics) used attributively to describe the state of a positronium exotic atom in which the positron and electron have parallel spins.

As nouns the difference between electron and holon

is that electron is while holon is (physics) one of three kinds of quasiparticle (the others being the spinon and orbiton) that electrons in solids are able to split into during the process of spin–charge separation, when extremely tightly confined at temperatures close to absolute zero.